THz radar What about?
Terahertz crystal material
Crystal is a rare mineral, primarily composed of silicon dioxide, formed deep underground in magma through billions of years of tectonic activity, high temperatures, high pressures, cooling crystallization, and various other factors.
Crystal is one of the gemstones with strong natural energy. It has the abilities to focus, store, transmit, convert, and amplify energy.
The energy of crystal is an incredibly powerful emitter, possessing an extremely stable magnetic field vibration frequency. It can adjust the magnetic field frequency of its surroundings to a normal state.
The unique vibration characteristics of crystal elevate human vibrations to new heights, particularly distinguished by their precise crystal lattice patterns that set them apart from other materials.
We have discovered a method where high-purity silicon is used as the main element, with the addition of other particles or single-crystal lattice structures of different diameters for melting. The melting process alters the structural morphology of silicon-based single-crystal lattices. Especially after high-temperature melting, it deeply penetrates at the atomic level, resulting in magical phenomenon where its frequency changes. Only by arranging our different crystal lattice materials in a pyramid shape can we stimulate them. In a passive state, our material converts, amplifies, and modifies the frequency into terahertz.
This material and formulation, under different temperatures and with the addition of different materials and diameter ratios, achieves atomic-level fitting with the pyramid within the silicon element through high-temperature melting. Energy particles rotate at high speeds inside, accelerating their movement and being released. The process of release is the generation of terahertz waves.
The material used for terahertz is completely different from others. Most others cannot achieve terahertz at 10^12. Most are in the infrared or far-infrared range, not terahertz. Without conversion and stimulation through a third-party medium, terahertz cannot be achieved. Only by arranging different crystal lattice materials in a pyramid shape and, in a passive state, using this material to convert, amplify, and modify the frequency into terahertz can it be achieved. Any claim of "terahertz" without such conversion and stimulation through materials is merely speculative.
Application of Terahertz Technology in Biomedicine
The application of terahertz technology in biomedicine lies in the fact that biomacromolecule interactions are key drivers of significant biological phenomena and disease development, and terahertz photon energy spans the energy level range of biomacromolecule spatial conformations. This frequency band encompasses crucial information, such as spatial conformations that directly represent biomacromolecule functions, which cannot be detected by other electromagnetic bands.
Therefore, it is possible to develop a new theory and technology that utilizes terahertz to detect and intervene in the interaction processes of biomacromolecules, providing advanced technological means for the diagnosis and effective intervention of current major diseases.
Biological effects of terahertz activated water molecules
The biological effect of terahertz-activated water molecules represents a cutting-edge scientific phenomenon with significant implications for human health. As a special type of electromagnetic wave, terahertz waves can effectively penetrate human skin and directly act on deep tissues. Given that approximately 70% of the human body weight is composed of water molecules, and cells account for a considerable proportion of these water molecules, the binding state of water molecules is crucial for cellular activity.
Terahertz waves can activate water molecules, causing them to transition from a low-energy state to a high-energy state. This process not only reduces blood viscosity but also significantly enhances cell regeneration and immunity. Such activation helps improve human microcirculation, promotes metabolism, and thereby delays the aging process. Additionally, activated water molecules can more effectively eliminate toxins from the body, enhance mental vitality, and provide comprehensive health care and adjunctive therapeutic effects for the body. Therefore, the biological effect of terahertz-activated water molecules holds broad application prospects in the field of biomedicine.
Can terahertz waves lower blood pressure
- Penetrating Biological Effect
Far-infrared terahertz waves can penetrate 3-5 centimeters into human skin, directly acting on deep tissues, replenishing life cell energy, regulating bodily physiological functions, and accelerating cell generation and decomposition.
- Resonance Cellular Biological Effect
When the human body temperature is 36.5°C, it corresponds to 9.36 micrometer terahertz. When these wavelengths act on the human body, they can produce a phenomenon of resonance with cells at the same frequency, stimulating the movement of water molecules within the body, increasing blood oxygen content and fluidity, promoting cell activity, accelerating metabolism, and comprehensively improving the body's microcirculation.
- Activating Water Molecule Biological Effect
Water molecules account for about 70% of human body weight, and cells account for about 40% of these water molecules. The binding state of water molecules has a significant impact on cell activity. Terahertz activates individual water molecules, reduces blood viscosity, enhances cell regeneration, boosts immunity, and achieves the effect of delaying aging.
- Massaging Skin Cell Biological Effect
Terahertz activates high-frequency vibrations, which have a massaging effect on skin cells. This promotes the function of sweat glands, accelerates the excretion of waste within the body, unblocks pores, reduces keratinization, makes the skin smooth and delicate, reduces wrinkles, and achieves the effect of skin beautification.
- Warming Biological Effect
Terahertz irradiation on the skin increases the temperature of subcutaneous tissues, dilates blood vessels, accelerates blood flow, and improves blood oxygen content. It promotes blood circulation, enhances metabolism, speeds up nutrient absorption, and accelerates the decomposition of metabolic waste, fat, free radicals, etc. within the body. The activated water molecules help expel toxins from the body, enhance mental vitality, and have excellent health care and adjunctive therapeutic effects.
Terahertz History
In the early stages, Tera Hertz (THz) was known by different names in various fields. In optics, it was referred to as far-infrared, while in electronics, it was called sub-millimeter waves, ultra-microwaves, and so forth. Prior to the mid-1980s, the development of infrared and microwave technologies on either side of the THz band was relatively mature. However, understanding of the THz band itself remained very limited, leading to the formation of the so-called "THz Gap".
In 2004, the U.S. government recognized THz technology as one of the "Top Ten Technologies That Will Change the World". Japan, on January 8, 2005, placed THz technology at the top of its "Ten Key Strategic National Goals", mobilizing the entire country for research and development.
In November 2005, the Chinese government specifically convened the "Xiangshan Science Conference", inviting multiple influential academicians in the field of THz research to discuss the development direction of China's THz endeavors and formulate a development plan for China's THz technology. Currently, several research institutions in China are conducting research related to the THz field. Among them, Capital Normal University is one of the early starters with significant investments. It has made many groundbreaking contributions in the THz spectroscopy, imaging, and identification of drugs and explosives, as well as in the non-destructive testing of internal defects in non-polar aerospace materials using THz. Due to the unique advantages of THz rays in security inspections, the THz Laboratory at Capital Normal University is concentrating on developing security prototype equipment that can be used for real-world testing. Additionally, governments, institutions, enterprises, universities, and research institutions in many countries and regions, including the United States, Europe, Asia, and Australia, have actively engaged in the THz research boom. Dr. Zhang Xicheng, a renowned American scholar and one of the pioneers in the field of THz research, exclaimed, "Nextray, T-Ray!"
